A 150 kJ/100 kW directly cooled high temperature superconducting electromagnetic energy storage system

doi:10.3969/j.issn.2095-4239.2015.04.008

Abstract

Abstract: This paper describes a 150kJ/100kW directly cooled high temperature superconducting electromagnetic energy storage (SEMS) system recently designed, built and tested in China. The high temperature superconducting magnet is made from Bi2223/Ag and YBCO tapes, which can be brought to ~17K through direct cooling. Preliminary experiments have shown that the critical current of the superconducting magnet reaches 180A with a maximum energy storage capacity of 157kJ and a maximum central magnetic field of 4.7 T. The 150 kJ/100 kW SMES has been found to respond very rapidly to active and reactive power independently in four quadrants of an AC power system, with a response time of less than 10 ms. It is also shown that, in a dynamic simulated experiment, the SMES can effectively damp power oscillation due to line fault of line to ground at the generator terminal.

Key words: superconducting magnet energy storage (SMES), superconducting magnet, directly cooled, stability of power system

CLC Number:

TM46

XU Ying, REN Li, TANG Yuejin, LI Jingdong, SHI Jing, LIU Yang, LIAO Yuxiang, DENG Jiaxi, WANG Shaorong, SHI Xiaohan, ZUO Wenping, WANG Zhuang. A 150 kJ/100 kW directly cooled high temperature superconducting electromagnetic energy storage system[J]. Energy Storage Science and Technology, 2015, 4(4): 394-401.

References

[1] Ali M,Wu B,Dougal R A. An overview of SMES applications in power and energy systems[J]. Sustainable Energy , IEEE Transactions on ,2010,1（1）：38-47.
[2] Zhou Lin（周林）,Huang Yong（黄勇）,Guo Ke（郭珂）. A survey of energy storage technology for micro grid[J]. Power System Protection and Control （电力系统保护与控制）,2011,39（7）：147-152.
[3] Nehrir M H,Wang C,Strunz K, et al . A review of hybrid renewable/alternative energy systems for electric power generation：Configurations,control,and applications[J]. Sustainable Energy , IEEE Transactions on ,2011,2（4）：392-403.
[4] Salih E,Lachowicz S,Bass O, et al . Application of a superconducting magnetic energy storage unit for power systems stability improvement[C]//2014 First International Conference on Green Energy,2014：267-272.
[5] Wang Shaorong（王少荣）,Peng Xiaotao（彭晓涛）,Tang Yuejin（唐跃进）,Wen Jinyu（文劲宇）,Cheng Shijie（程时杰）,Xu Dehong（徐德鸿）. Apparatus and experiment of high temperature superconducting magnetic energy storage used for power system stability enhancement[J]. Proceedings of the CSEE （中国电机工程学报）,2007,27（22）：44-50.
[6] Jiao F,Tang Y,Dou J, et al . The conceptual design of hybrid high temperature superconducting magnet[J]. IEEE Transactions on , Applied Superconductivity ,2012,22（3）：4903005.
[7] Wang Chao（王超）,Huang Hui（黄晖）,Song Shousen（宋守森）, et al . Analysis of a conduction cooled HTS magnet[J]. Chinese Journal of Low Temperature Phusics （低温物理学报）,2006,27（A02）：1063-1067.
[8] Nagaya S,Hirano N,Naruse M, et al . Development of a high-efficiency conduction cooling technology for SMES coils[J]. IEEE Trans . on Appl . Supercond .,2013,23（3）：5602804.
[9] Li Jun（李君）,Xu Dehong（徐德鸿）,Zheng Jiawei（郑家伟）, et al . Carrier-swapping method to equalize current in a multi-modular current source converter for SMES[J]. Proceedings of the CSEE （中国电机工程学报）,2004,24（7）：106-111.
[10] Peng Xiaotao（彭晓涛）,Cheng Shijie（程时杰）,Wang Shaorong（王少荣）,Tang Yuejin（唐跃进）. Research on application of nonlinear PID controller in superconducting magnetic energy storage[J]. Power System Technology （电网技术）,2005,29（5）：37-42.
[11] Chaiyatham T,Ngamroo I. Optimal fuzzy gain scheduling of PID controller of superconducting magnetic energy storage for power system stabilization[J]. International Journal of Innovative Computing ： Information and Control ,2013,9（2）：651-666.
[12] Aki Korpela,Jorma Lehtonen,Risto Mikkonen. Quench current in conduction-cooled HTS magnets[J]. Supercond. Sci. Technol .,2003,16：355-360.